Described is a system for transmitting a flexural wave acting on one structure to another structure. In one example, a system includes a first structure having a first property and a first end and a second structure having a second property and a second end connected to the first end of the first structure. The first property is different from the second property and may be related to the material and/or geometric properties of the first and second structures. A mechanical resonator is connected to the first structure at a distance from the first end of about a quarter-wavelength of the frequency of a flexural wave acting on the first structure. The mechanical resonator matches a first mechanical impedance of the first structure to a second mechanical impedance of the second structure to allow high transmission of the flexural wave acting on the first structure to the second structure.

An automated system and method for construction and assembly of walls, floors and ceilings are disclosed. The automated system comprises at least one robotic arm, at least one material gripper tool, at least one sliding, rising and rotating system, and tongue-and-groove interconnection elements.

A de-constructible enclosure has a structural frame with a post, a first panel with a first end, and a second panel with a second end. The post has a substantially H-shaped cross-section including a first recess on a first side of the post and a second recess on a second side of the post. The first recess of the post receives the first end of the first panel. The second recess of the post receives the second end of the second panel. The post, the first panel, and the second panel together define a wall of the enclosure. A method for manufacturing the de-constructible enclosure further includes caulking joints of the connected post and panels and applying an elastomeric coating to the joints to seal the wall of the enclosure.

A de-constructible enclosure has a structural frame with a post, a first panel with a first end, and a second panel with a second end. The post has a substantially H-shaped cross-section including a first recess on a first side of the post and a second recess on a second side of the post. The first recess of the post receives the first end of the first panel. The second recess of the post receives the second end of the second panel. The post, the first panel, and the second panel together define a wall of the enclosure. A method for manufacturing the de-constructible enclosure further includes caulking joints of the connected post and panels and applying an elastomeric coating to the joints to seal the wall of the enclosure.

The invention concerns a building system for building a structure such as a dwelling, garage, shop, school, hall or the like comprising a number of interconnecting components whose assembly is dictated by their size and shape, the invention extends to components of said building system; a kit of parts thereof; and a method for building dwellings, garages, shops, schools, halls or the like.

A boom clamp attachment has a gib frame, a boom quick-connect, a shaft arm axle, a shaft arm torque assembly, and at least one gib clamp assembly. The gib clamp assembly has a clamp support member having a first gib clamp at a first end and second gib clamp at a second end. The gib clamp has a fixed finger and a moveable finger, the moveable finger controlled via hydraulics. The boom clamp may hoist, tilt, and position an assembled section of panels.

Structural truss panels include first, second, third, and fourth horizontal elongated members and first and second vertical elongated members fastened to the first, second, third, and fourth horizontal elongated members. The first and fourth horizontal elongated members form respectively a top and a bottom of the structural truss panel. The first and second vertical elongated members forming respective sides of the structural truss panel. The structural truss panel further includes and an angled webbing fastened between the first and second vertical elongated members and the first and second horizontal elongated members thereby creating an integrated web truss within the structural truss panel. The structural truss panel includes first, second, and third brace members forming a V-braced truss panel.

A flat-mounted connector that enables industry standard hooks on horizontal rods to rest at such a height as to provide uniform appearance to the top of drape walls. The flat-mounted connector provides a connection that affixes to a flat wall or surface and an affixed coupler for the drape rods to be affixed to a vertical surface. The connector has an upper region with a similar outside dimension as the body of the coupler. In an internal portion of the coupler, at least one hollow well opens vertically with at least one lateral notch or opening formed in an upper region and designed to accept a terminal hook used on an end of a horizontally placed rod. An example connector includes two couplers affixed to the flat-mounted connection to accept additional terminal hooks.

A system for securing modular building units to each other and a method for assembling structures using said method is disclosed. The disclosed system allows for modules to be connected to each other from an external position, without a person having to enter the modules to fasten components internally. The system and method may be used to build structures using prefabricated modules, avoiding significant amounts of onsite labor and drastically reducing the time required to erect structures.

A system for securing modular building units to each other and a method for assembling structures using said method is disclosed. The disclosed system allows for modules to be connected to each other from an external position, without a person having to enter the modules to fasten components internally. The system and method may be used to build structures using prefabricated modules, avoiding significant amounts of onsite labor and drastically reducing the time required to erect structures.